Figures & data
Table 1. Descriptive statistics of 60 commercial-like samples from the 2016 crop year.
Figure 2. The amount of variation explained (R2) in yarn tenacity (g/tex) by different yarn quality prediction models.
![Figure 2. The amount of variation explained (R2) in yarn tenacity (g/tex) by different yarn quality prediction models.](/cms/asset/b9112d17-5d3e-49b8-b78b-b675a518f0cc/wjnf_a_2248379_f0002_oc.jpg)
Figure 3. Performance of different yarn quality models while predicting yarn tenacity (g/tex) based on MSE.
![Figure 3. Performance of different yarn quality models while predicting yarn tenacity (g/tex) based on MSE.](/cms/asset/978c5304-2c42-4153-920c-c45d89445c4d/wjnf_a_2248379_f0003_oc.jpg)
Figure 4. The amount of variation explained (R2) in yarn work-to-break by different yarn quality prediction models.
![Figure 4. The amount of variation explained (R2) in yarn work-to-break by different yarn quality prediction models.](/cms/asset/59dcbdf3-1146-4982-bcba-c4391456220c/wjnf_a_2248379_f0004_oc.jpg)
Figure 5. Performance of different yarn quality models while predicting yarn work-to-break based on MSE.
![Figure 5. Performance of different yarn quality models while predicting yarn work-to-break based on MSE.](/cms/asset/1d24d85b-cc76-4459-9372-94073199abb6/wjnf_a_2248379_f0005_oc.jpg)
Figure 6. The amount of variation explained (R2) in yarn coefficient of mass variation (CVm %) by different yarn quality prediction models.
![Figure 6. The amount of variation explained (R2) in yarn coefficient of mass variation (CVm %) by different yarn quality prediction models.](/cms/asset/dc429077-5c9a-4321-8038-11da58d6ca3d/wjnf_a_2248379_f0006_oc.jpg)
Figure 7. Performance of different yarn quality models while predicting yarn coefficient of mass variation (CVm %) based on MSE.
![Figure 7. Performance of different yarn quality models while predicting yarn coefficient of mass variation (CVm %) based on MSE.](/cms/asset/8a6364b6-7277-4ecb-abb4-94a234b35022/wjnf_a_2248379_f0007_oc.jpg)
Figure 8. The amount of variation explained (R2) in yarn thin places − 50% (counts/km) by different yarn quality prediction models.
![Figure 8. The amount of variation explained (R2) in yarn thin places − 50% (counts/km) by different yarn quality prediction models.](/cms/asset/1971e349-259e-4cb2-9c36-fba96ab051d4/wjnf_a_2248379_f0008_oc.jpg)
Figure 9. Performance of different yarn quality models while predicting yarn thin places − 50% (counts/km) based on MSE.
![Figure 9. Performance of different yarn quality models while predicting yarn thin places − 50% (counts/km) based on MSE.](/cms/asset/f6686c18-4e76-473a-86a4-644050b92227/wjnf_a_2248379_f0009_oc.jpg)
Figure 10. The amount of variation explained (R2) in yarn thick places + 50% (counts/km) by different yarn quality prediction models.
![Figure 10. The amount of variation explained (R2) in yarn thick places + 50% (counts/km) by different yarn quality prediction models.](/cms/asset/1de791f6-ec36-4a42-ad3a-104f6c5d4853/wjnf_a_2248379_f0010_oc.jpg)
Figure 11. Performance of different yarn quality models while predicting yarn thick places + 50% (counts/km) based on MSE.
![Figure 11. Performance of different yarn quality models while predicting yarn thick places + 50% (counts/km) based on MSE.](/cms/asset/5bc987b7-6d50-44ae-b6ef-2532503c863f/wjnf_a_2248379_f0011_oc.jpg)
Figure 12. The amount of variation explained (R2) in yarn neps + 200 (counts/km) by different yarn quality prediction models.
![Figure 12. The amount of variation explained (R2) in yarn neps + 200 (counts/km) by different yarn quality prediction models.](/cms/asset/eb9eae33-9187-462e-a66d-6aae7c5b510e/wjnf_a_2248379_f0012_oc.jpg)
Figure 13. Performance of different yarn quality models while predicting yarn neps + 200 (counts/km) based on MSE.
![Figure 13. Performance of different yarn quality models while predicting yarn neps + 200 (counts/km) based on MSE.](/cms/asset/ca5f8fc7-2723-4474-a148-3a8ca77f9dbc/wjnf_a_2248379_f0013_oc.jpg)